On the Origin of Life: A Possible Way from Fox's Microspheres into Primitive Life

Z. Hua
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引用次数: 3

Abstract

The microspheres constituted by proteinoids synthesized from Fox’s simulation experiments. They had peptide bond structure and weak catalysis, as well as proliferated themselves. Such microspheres were believed the models for primitive life. Due to lack of metabolism and self-reproduction, the microspheres could not meet requirements of life. Thus, how microspheres could evolve into primitive life remain unsolved mysteries. The microspheres were supposed a dissipative structure and the processes of absorption and hydrolysis could be balanced to maintain their stability by consuming proteinoids. Proteinoid molecules differed in their life spans, which were mainly determined by their multi-space structures. Consequently, molecule selection and retention could occur spontaneously in microspheres and lead to a more organized and stabilized structure of the whole microsphere with time through dissipative process. More complex chain network of chemical reactions could happen in microspheres because the proteinoid with complex, ordered multi-space structure and relatively high catalytic activity would retain. In such microspheres, nucleotides could produce and further aggregate into RNA. The synthesis of real proteins could take place with RNA as the template catalyzed by proteinoids or RNA inside microspheres. When template-based protein molecules replaced the proteinoid inside the microspheres, a protein-based self-catalyzed network of chemical reactions could take place. It is plausible if Fox’s proteinoids microspheres is to dawn on a dissipative structure, then molecule selection could occur spontaneously by “dissipative” proteinoids, and the microspheres would acquire catalytic activity due to preserved the proteinoid with a large molecular weight and relatively complex and ordered multi-space structure, and relatively high catalytic activity. Thus the microspheres would spontaneously go to self-organizing, and evolve into primitive life.
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论生命的起源:从福克斯的微球理论到原始生命的可能途径
由Fox模拟实验合成的类蛋白构成的微球。它们具有肽键结构,催化能力弱,并具有自我增殖能力。这种微球被认为是原始生命的模型。由于缺乏新陈代谢和自我繁殖,微球不能满足生命的需要。因此,微球如何进化成原始生命仍是未解之谜。微球具有耗散结构,可以通过消耗类蛋白来平衡吸收和水解过程,保持微球的稳定性。类蛋白分子的寿命不同,主要是由它们的多空间结构决定的。因此,分子的选择和保留可以自发地在微球中发生,并通过耗散过程导致整个微球的结构随着时间的推移变得更加有组织和稳定。微球中保留了复杂有序的多空间结构和较高催化活性的类蛋白,可以发生更复杂的化学反应链网络。在这样的微球中,核苷酸可以产生并进一步聚集成RNA。以RNA为模板,在微球内通过类蛋白或RNA催化合成真正的蛋白质。当基于模板的蛋白质分子取代微球内的类蛋白质时,一个基于蛋白质的自催化化学反应网络就会发生。如果Fox的类蛋白微球是发生在耗散结构上,那么“耗散”的类蛋白可以自发地进行分子选择,而微球由于保留了大分子量、相对复杂有序的多空间结构的类蛋白而获得催化活性,具有较高的催化活性。这样,微球就会自发地进行自我组织,进化成原始生命。
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